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Media Release
Media Contact:
Tay Yu Shan
Editor
Tel: (65) 64665775, Ext. 481
Email: ystay@wspc.com

Effective material developed to prevent post-surgical adhesion

In a paper published in TECHNOLOGY, a group of researchers have investigated a novel Polyelectrolyte complex (PEC) that provides a barrier to prevent adhesions in post-operative complications. This has the potential to avoid the need for a second surgery to remove the adhesions.

Adhesions are fibrous bridges that form between tissues and organs. They can occur in spinal, intestinal, and peritoneal (abdominal cavity) regions of the body, as a result of surgery, injury, inflammation, or infection. Adhesions usually occur in abdominal, pericardial, and peridural spaces. It is estimated that 303,836 hospitalization cases, 800,000 days of in-patient care and $1.33 billion expenditures can be attributed to adhesion formation. Adhesion causes discomfort, extreme pain, reduced mobility, difficulty breathing, and infertility. The success rates of available anti-adhesive barriers are still low and there is a need for development of more effective bio-materials, which can significantly reduce adhesions.

A team of researchers from the Rutgers University, New Jersey have demonstrated a novel biomaterial film that is strong, flexible, and provides a physical barrier to prevent the joining of surfaces that should not stick together. The substrate-cells electrostatic interactions with the film also help prevent adhesions from forming.

"By taking advantage of the inherent properties of at least two oppositely charged polymers.

Polyelectrolyte complexes (PEC) primarily consist of Polymers with negatively charged functional groups such as carboxylate and sulfate have demonstrated an inhibitory effect on adhesions of macrophages, lymphocytes, platelets and fibroblasts," says Professor Noshir Langrana, PhD of the Rutgers University and Principal Investigator on the paper.

Current technologies have issues such as brittleness and an inability to prevent adhesions in the presence of blood. The technology we have developed is from a natural, non-toxic material complex that has the desired barrier properties including: being biodegradable in 1-2 weeks, cellular anti-adhesive, flexible, and reasonably strong. The design of Polyelectrolyte complexes (PEC) primarily consist of at least two oppositely charged polymers. Polymers with negatively charged functional groups such as carboxylate and sulfate have demonstrated an inhibitory effect on adhesions of macrophages, lymphocytes, platelets, and fibroblasts. This film would prevent adhesions by providing a physical barrier to stop the surfaces that should not stick together from joining. The substrate-cells electrostatic interactions with the film also help prevent adhesions from forming.

Corresponding author for this study in TECHNOLOGY is Noshir A. Langrana (Email: Langrana@rutgers.edu).

For more insight into the research described, readers are invited to access the paper on TECHNOLOGY.


(a) The live cells outside the 1 µL dot of PEC indicate that the material does not create a toxic environment (Scale bar: 500 ?m). This suggests that the material inhibits viability when cells are directly attached to it.

(b) The current version of film is strong and flexible; therefore, easy to handle. It can be used for both laparoscopic and laparotomy surgeries. It is biodegradable and biocompatible. Processing is completely aqueous based and does not require any toxic solvent.

Fashioned as a high-impact, high-visibility, top-echelon publication, this new ground-breaking journal - TECHNOLOGY - will feature the development of cutting-edge new technologies in a broad array of emerging fields of science and engineering. The content will have an applied science and technological slant with a focus on both innovation and application to daily lives. It will cover diverse disciplines such as health and life science, energy and environment, advanced materials, technology-based manufacturing, information science and technology, and marine and transportations technologies.


About TECHNOLOGY

logo TECHNOLOGYFashioned as a high-impact, high-visibility, top-echelon publication, this new ground-breaking journal - TECHNOLOGY - will feature the development of cutting-edge new technologies in a broad array of emerging fields of science and engineering. The content will have an applied science and technological slant with a focus on both innovation and application to daily lives. It will cover diverse disciplines such as health and life science, energy and environment, advanced materials, technology-based manufacturing, information science and technology, and marine and transportations technologies.

About World Scientific Publishing Co.

World Scientific PublishingWorld Scientific Publishing is a leading independent publisher of books and journals for the scholarly, research, professional and educational communities. The company publishes about 600 books annually and about 140 journals in various fields. World Scientific collaborates with prestigious organisations like the Nobel Foundation and US National Academies Press to bring high quality academic and professional content to researchers and academics worldwide. To find out more about World Scientific, please visit www.worldscientific.com.